A review of lattice type model in fracture mechanics: theory, applications, and perspectives. (1st March 2018)

• Record Type: Journal Article
• Authors: Pan, Zichao; Ma, Rujin; Wang, Dalei; Chen, Airong
• Is Part Of: Engineering fracture mechanics. Volume 190(2018)
• Page Start: 382
• Page End: 409
• Publication Date: 2018-03-01
• Subjects: FEM finite element method -- LSM lattice spring model -- LBM lattice beam model -- RPM random particle model -- CSL confinement-shear lattice model -- LCM lattice-cell model -- DLSM distinct lattice spring model -- VCPM volume-compensated particle model -- DPM discrete particle model -- MD molecular dynamics -- PD PeriDynamics -- DOF degree of freedom -- GB generalized beam -- ITZ interfacial transition zone -- LDPM lattice discrete particle model -- DEM discrete element method -- AMR adaptive mesh refinement -- FA fly ash -- BFS blast furnace slag -- SF silica fumes -- HPC high performance concrete -- UHPC ultra high performance concrete -- RC reinforced concrete -- FRC fiber-reinforced concrete -- SFRC steel fiber-reinforced concrete -- CUDA compute unified device architecture -- GPU graphics processing unit; Review -- Lattice model -- Fracture process -- Beam -- Spring; Fracture mechanics -- Periodicals; Rupture, Mécanique de la -- Périodiques; Fracture mechanics; Periodicals; 620.112605
• DOI: 10.1016/j.engfracmech.2017.12.037
• Languages: English
• ISSNs: 0013-7944

Abstract

Highlights: A systematic review of literature related to lattice type model is given. Interdisciplinary research is helpful to further innovate lattice type model. Advanced computing techniques are needed to apply lattice model in real structure. Constitutive relation and failure criterion need further researches. The study provides a starting point for research on new lattice type model. Abstract: The lattice model is a discrete model that is typically used to simulate the fracture process of brittle materials. This review summarizes the main achievements during the development history of the state-of-the-art lattice model during the past 80 years from the theory and application viewpoints. It is found that the classical lattice spring model (LSM) can only simulate a fixed Poisson's ratio. This problem has been partially or fully solved in developed versions of novel lattice models by using (1) extra nodal DOFs, (2) extra shear springs, (3) extra nonlocal energy parameters, and (4) higher dimensional normal springs. The lattice model has already been successively applied in simulations of fracture processes of different materials and under different loads. However, the applications in fracture analyses of metals, dynamic load-induced fracture, and real large-scale structures, are not sufficient. Innovative areas of future research in reference to the use of the lattice model in engineering practice include constitutive relations, failure criteria, anisotropic material modeling and efficient computing techniques to expand its use and range of applications.